基于多覆盖共中点信号偶阵列的表面波(HASW)剖面成像高密度分析

IF 3 2区 地球科学 Q1 GEOCHEMISTRY & GEOPHYSICS Geophysics Pub Date : 2023-10-31 DOI:10.1190/geo2023-0100.1
Chen Li, Yunsheng Wang, Guozhong Gao
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引用次数: 0

摘要

面波探测技术在建筑工程质量检测和浅层测量中得到了广泛应用。为了提高地表波勘探场采集效率,实现高精度、高密度的地表波剖面成像,基于有源瞬态地表波信号采集原理和频散曲线计算方法,研制了一种无线分布式地震地表波信号采集系统。为实现多覆盖信号的快速采集,提高野外工作效率,设计了一种用于多覆盖共弹信号采集的快速配置共中点信号对(CMC)的方法,并制定了基于CMC阵列的高精度色散曲线计算可视化方法。与相同条件下的多通道表面波分析(MASW)方法相比,CMC阵列可以有效提高表面波频散曲线测量站密度和横向分辨率,从而实现高密度表面波分析(HASW)剖面成像。通过模型分析和工程质量检测的现场实例,包括地基密实度、土石混合体密实度等,表明该方法具有精度高、密度大、适用范围广等显著优势。这些优点极大地提高了表面波探测的效率和剖面成像的精度。
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High-density analysis of surface wave (HASW) profile imaging based on a multiple coverage common midpoint signal-couple array
Surface wave exploration technology has been extensively employed in the inspection of construction engineering quality and shallow surface surveys. In order to enhance the efficiency of surface wave exploration field acquisition and achieve high precision and high-density surface wave profile imaging, a wireless distributed seismic surface wave signal acquisition system has been developed based on the principles of active source transient surface wave signal acquisition and dispersion curve calculation methods. For the purpose of achieving rapid multiple coverage signal acquisition and enhancing field work efficiency, a method for rapidly configuring Common Midpoint Signal-Couples (CMC) for multiple coverage common-shot signal acquisition has been devised, and a high-precision visualization method for dispersion curve calculation based on the CMC array has been formulated. When compared with the Multichannel Analysis of Surface Wave (MASW) method under identical conditions, the CMC array can effectively enhance surface wave dispersion curve survey station density and lateral resolution, thereby enabling High-density Analysis of Surface Wave (HASW) profile imaging. Through model analysis and field examples related to construction quality detection, including foundation compactness and earth and rock mixture compactness, it has been demonstrated that this method offers significant advantages in terms of high accuracy, high density, and a wide application range. These advantages greatly enhance the efficiency of surface wave exploration and the accuracy of profile imaging for construction engineering projects.
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来源期刊
Geophysics
Geophysics 地学-地球化学与地球物理
CiteScore
6.90
自引率
18.20%
发文量
354
审稿时长
3 months
期刊介绍: Geophysics, published by the Society of Exploration Geophysicists since 1936, is an archival journal encompassing all aspects of research, exploration, and education in applied geophysics. Geophysics articles, generally more than 275 per year in six issues, cover the entire spectrum of geophysical methods, including seismology, potential fields, electromagnetics, and borehole measurements. Geophysics, a bimonthly, provides theoretical and mathematical tools needed to reproduce depicted work, encouraging further development and research. Geophysics papers, drawn from industry and academia, undergo a rigorous peer-review process to validate the described methods and conclusions and ensure the highest editorial and production quality. Geophysics editors strongly encourage the use of real data, including actual case histories, to highlight current technology and tutorials to stimulate ideas. Some issues feature a section of solicited papers on a particular subject of current interest. Recent special sections focused on seismic anisotropy, subsalt exploration and development, and microseismic monitoring. The PDF format of each Geophysics paper is the official version of record.
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